The critical demand for guaranteed battery longevity and peak performance in advanced energy storage is pushing engineers toward next-generation virtual testing, with answers coming from the vacuum of space.
A world-leading innovator in battery development software, About:Energy, has recently demonstrated a breakthrough capability with Australian satellite firm MP Space. Using its dedicated cloud platform, The Voltt, About:Energy enabled MP Space to select and validate the perfect, mission-critical battery cell virtually—avoiding a potential six-month development pivot and sidestepping the need for extensive, time-consuming physical testing.
This technical achievement, born in the hyper-demanding aerospace sector, carries a profound lesson for all industries relying on high-performance battery packs. If you can virtually guarantee battery performance and degradation under the most extreme conditions imaginable (low-Earth orbit), you can radically improve the design and confidence behind specialized, critical energy storage systems.
The Problem: When Precision is Mission-Critical
Satellite battery systems operate under demanding, shallow discharge cycles over extremely long lifetimes, where failure is not an option. For MP Space, the challenge was integrating the latest-generation cells while guaranteeing long-term reliability—a process that traditionally bogs down engineering teams for months in the lab.
“Access to About:Energy’s extensive expertise, robust datasheets and high-quality data platform meant we could make evidence-based design decisions that would normally require months of in-house testing,” said Jay Manley, CEO and Co-Founder of MP Space. “We avoided unnecessary prototype cycles, reduced risk, and freed up our engineering team’s time.“
This “first-time-right” approach hinges on a methodology known as high-fidelity virtual modeling.
Validated Cell Modeling: The Future of Battery Development
The Voltt platform utilizes validated cell models, drawing on an extensive library of data from over 30 high-performance chemistries. Instead of relying on guesswork or generic manufacturer data, the platform allows engineers to model, test, and compare cells under real-world duty cycles, in this case, simulating the harsh thermal and operational conditions of space.
For the specialized hardware industry, this capability is a paradigm shift. The most significant challenge in battery system design is thermal management and the accurate prediction of degradation across the system’s lifetime. High-fidelity virtual modeling allows engineers to predict, with extreme accuracy:
- Performance Lifetime: How will a cell perform under demanding operational cycles and usage patterns over a multi-year lifespan?
- Thermal Integrity: How will the cell generate heat under continuous high loads, and will the cooling system be sufficient to prevent costly or dangerous thermal stress?
- Optimal Cell Selection: Benchmarking potential cells instantly for long-term performance, maximum longevity, and cost efficiency, replacing the agonizing process of physical testing that can take months per cell.
Dr. Gavin White, Co-founder and CEO of About:Energy, views the efficiency gains as essential for lowering the final cost of specialized hardware. “Using The Voltt’s validated data and virtual testing, engineers accelerate development, reduce risk, and strengthen confidence in mission-critical systems,” he stated. “MP Space changes this through smarter engineering, using simulation and high-fidelity cell data to reduce development time and lower space power system costs.“
Transferring Reliability Benchmarks to Industry
The insights gained from the MP Space collaboration are directly transferable to companies developing any high-performance battery pack—from industrial robotics to grid storage and beyond.
Manley specifically pointed to the next planned step: using the virtual model to “tune our thermal models, for assessing cell heat generation under various load conditions.” This is precisely the critical data required to safely ensure optimal efficiency and longevity in demanding applications.
By enabling the industry to confidently adopt the latest-generation cell technology earlier, validated modeling helps to:
- Accelerate Innovation: Manufacturers can skip lengthy testing phases and bring new, energy-dense cells to market faster.
- Enhance Safety: Engineers gain detailed knowledge of the battery’s behavior under stressful conditions, mitigating thermal risks and increasing system integrity.
- Reduce Cost: The elimination of prototype cycles and physical testing translates directly into lower R&D expenditure, ultimately reducing the final cost of advanced power systems.
The reliability benchmarks set by the space industry are now defining the future of advanced battery development. As About:Energy’s validated datasets become the standard, the future of power system design will be less about guesswork and more about the confident, data-driven decisions that are already propelling the next generation of specialized hardware.
